main()
{
uint64_t gcd, a, b;
long long int x, y;
a = 7;
b = 5;
eea(a,b,&gcd,&x,&y);
printf("a: %lld b: %lld gcd: %lld x: %lld y: %lld",a,b,gcd,x,y);
}
/* this function generates a public key, private key and modulo n
for RSA encryption. srand needs to be seeded */
void generateKeys(uint64_t* pub, uint64_t* priv, uint64_t* n)
{
uint64_t p,q,phiN;
/* generate a random p between given range
until p passes the lehmann primality
test function*/
do
{
p = ( rand() % (PMAX-PMIN) ) + PMIN;
}
while(!lehmann(p));
/* generate a random q between given range
until q passes the lehmann primality
test function*/
do
{
q = ( rand() % (PMAX-PMIN) ) + PMIN;
}
while(!lehmann(q));
/*calulate the modulo n to pass back*/
*n=p*q;
/*calculate φ(n)*/
phiN =(p-1)*(q-1);
uint64_t e,gcd,d;
long long int xi,yi;
/* calcuate e and test to see that it is co-prime with
φ(n)*/
do
{
e = rand()%(phiN-3)+2;
eea(e,phiN,&gcd,&xi,&yi);
}
while(gcd !=1);
/* using the value fromt he EEA function, get your
private key d (need to had φ(n) and mod φ(n) to
make sure it is positive*/
d = (uint64_t)((xi+phiN)%phiN);
/*pass back the public and private keys*/
*pub = e;
*priv = d;
}
int64 modInverse_relativePrime(int64 B,int64 P) {
return eea(B,P).second.first;
}
idt recEventEventa::Create( idt eID, idt eaID, double conf, const wxString& note )
{
recEventEventa eea(eID, eaID, conf, note);
eea.Save();
return eea.FGetID();
}
